Fig 6 - uploaded by Srijal Poojari
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A route generated by the cycling mode of Google Maps suggests a path over some stairs. This would be an unsafe path for a self-driving scooter and we propose using historical ride data from human-operated scooters to generate better routes.

A route generated by the cycling mode of Google Maps suggests a path over some stairs. This would be an unsafe path for a self-driving scooter and we propose using historical ride data from human-operated scooters to generate better routes.

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This paper describes the development of a self-driving e-scooter with the ability to safely travel without a rider along a pre-planned route using automated onboard control. Ride-share electric scooters are an alternative to walking or driving, but they are often ineffective or a nuisance due to their placement after usage. An autonomous driving fr...

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... they provide insufficient information about terrain, structures, sidewalks, or trails and may generate routes that are unusable by an autonomous scooter. An example of this can be seen in Figure 6, where the requested path for a bicycle on Google Maps takes us over some stairs. ...

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Citations

... The authors propose a Proportional-Derivative (PD) controller and a feedback-linearized PD controller and evaluate their functionality in simulation. In [13], another autonomous escooter prototype is presented which uses support wheels instead of a balancing mechanism. The authors describe a path following algorithm based on a Timed-Elastic-Band Optimization Problem. ...
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In order to mitigate economical, ecological, and societal challenges in electric scooter (e-scooter) sharing systems, we develop an autonomous e-scooter prototype. Our vision is to design a fully autonomous prototype that can find its way to the next parking spot, high-demand area, or charging station. In this work, we propose a path following solution to enable localization and navigation in an urban environment with a provided path to follow. We design a closed-loop architecture that solves the localization and path following problem while allowing the e-scooter to maintain its balance with a previously developed reaction wheel mechanism. Our approach facilitates state and input constraints, e.g., adhering to the path width, while remaining executable on a Raspberry Pi 5. We demonstrate the efficacy of our approach in a real-world experiment on our prototype.